Road slope soil environment quality monitoring system

Abstract

The invention discloses a road slope soil environment quality monitoring system, and belongs to the technical field of environment quality monitoring, and the monitoring system comprises the following application steps: entering the system for user management, role management and layer management; according to the slope soil monitoring system, dynamic monitoring of basic information of sampling points and soil components of the sampling points can be achieved, the working process of each link of field operation and laboratory inspection is effectively standardized, it is ensured that monitoring data is accurately, timely and efficiently collected and summarized, data support is provided for road construction and environmental protection, and the slope soil monitoring system is suitable for popularization and application. A three-dimensional visual operating system is further adopted in the system, all collected data can be imported into the three-dimensional visual operating system, all kinds of data can correspond to and be matched with three-dimensional images and can be visually presented, it can be guaranteed that follow-up personnel can quickly retrieve and search all kinds of data, and the application effect of the system is improved.

Description

Technical Field

[0001] The invention belongs to the technical field of environmental quality monitoring, and in particular relates to a highway slope soil environmental quality monitoring system. Background Art

[0002] Environmental quality monitoring is an important means to assess and protect the natural environment from pollution and destruction. It uses scientific methods and technical means to regularly or continuously measure the concentration, distribution and changing trends of various pollutants in the environment, providing a scientific basis for environmental management, planning and decision-making.

[0003] The Chinese patent discloses (CN116500240A) a soil environmental quality monitoring method, system and readable storage medium, which belongs to the field of soil detection technology. The method includes: judging whether there is at least one soil quality parameter subsequence that meets the preset conditions in each soil quality parameter sequence; and judging whether the number of soil quality parameters in each soil quality parameter subsequence within a certain parameter threshold range is greater than the preset number threshold; if the number of soil quality parameters in each soil quality parameter subsequence within a certain parameter threshold range is greater than the preset number threshold, then selecting a soil quality parameter subsequence with the largest number of soil quality parameters within a certain parameter threshold range. It has achieved the maximum possible screening of soil quality parameters collected before the existence or after the removal of temporary pollution sources, and can improve the accuracy of soil environmental quality measurement results. Although the current monitoring system can also complete the monitoring of soil environment, it cannot realize the dynamic monitoring of basic information of sampling points and soil composition of sampling points, and cannot standardize the workflow of field operations and laboratory tests. It cannot ensure the accurate, timely and efficient collection and aggregation of monitoring data. At the same time, the system does not use a visual three-dimensional operating system, which makes it impossible to visualize the data. The actual application effect of the system is not good, and a highway slope soil environmental quality monitoring system is urgently needed. Summary of the invention

[0004] The purpose of the present invention is to solve the problem that although the current monitoring system can complete the monitoring of the soil environment, it cannot realize the dynamic monitoring of the basic information of the sampling points and the soil composition of the sampling points, cannot standardize the workflow of each link of the field operation and laboratory inspection, cannot ensure the accurate, timely and efficient data collection and aggregation of the monitoring data, and the system does not adopt a visual three-dimensional operating system, resulting in the inability to visualize the data and the poor actual application effect of the system. A highway slope soil environment quality monitoring system is proposed.

[0005] In order to achieve the above object, the present invention adopts the following technical solution: a highway slope soil environmental quality monitoring system, comprising the following steps: S1. Enter the system to manage users; S2. Perform role management; S3, perform layer management; S4. Manage administrative areas; S5. Carry out road project management; S6. Manage collection points; S7, acquiring and managing data from collection points; S8, importing the collected data into a three-dimensional visualization operating system; S9. Use analytical tools to analyze the data.

[0006] As a further description of the above technical solution: In S1, the system is entered to perform user management, and the specific steps are: performing user query, adding new users, editing users, and modifying user passwords.

[0007] As a further description of the above technical solution: In S2, role management is performed, and the specific steps are: after logging into the system, adding roles to the system, editing roles, editing menu permissions, and finally editing data permissions.

[0008] As a further description of the above technical solution: In the S3, layer management is performed, and the specific steps are: first perform layer query, add new layers, edit layers, and delete unnecessary layers.

[0009] As a further description of the above technical solution: In S4, administrative regions are managed, and the specific steps are: first query the administrative regions, add new administrative regions, edit the administrative regions, and delete specific administrative regions.

[0010] As a further description of the above technical solution: In S5, road project management is performed, and the specific steps are: firstly, a road project query is performed, the newly added road project information is searched, the road project is edited, and the road project is deleted.

[0011] As a further description of the above technical solution: In S6, collection point management is performed, and the specific steps are: first querying the collection points, adding new collection points, editing the collection points, and deleting the specified collection points.

[0012] As a further description of the above technical solution: In the above S7, data acquisition and management of the collection points are performed, and the specific steps are as follows: first, each collection point is numbered, and the numbering adopts one of letter numbering and digital numbering, and then relevant data is collected for different collection points respectively. The collected relevant data includes geographical location data of the collection point, surrounding environment data parameters of the collection point, soil environment parameters of the collection point and surrounding image data of the collection point. The collected data is edited and useless collection data is deleted.

[0013] As a further description of the above technical solution: In the above S8, the collected data is imported into the three-dimensional visualization operating system, and the specific steps are: first log in to the three-dimensional visualization operating system, import the collected data into the three-dimensional visualization operating system respectively, and perform layer control.

[0014] As a further description of the above technical solution: In S9, analysis tools are used to analyze data. Specifically, various types of analysis operations are performed based on various basic data provided by the system and combined with professional algorithm models. Different analysis tools are managed in the form of a toolbox, and extended functions of the analysis tools are supported. The applied analysis tools are one or more of FineReport, FineVis and Python.

[0015] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are: In the present invention, the slope soil monitoring system can realize dynamic monitoring of the basic information of the sampling points and the soil composition of the sampling points, effectively standardize the work processes of various links of on-site operations and laboratory tests, ensure the accurate, timely and efficient data collection and aggregation of monitoring data, and provide data support for highway construction and environmental protection. The system also adopts a three-dimensional visualization operating system, which can import various collected data into the three-dimensional visualization system, and can make various types of data correspond and adapt to three-dimensional images and present them visually, which can ensure that subsequent personnel can quickly retrieve and search for various data, thereby improving the application effect of the system. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 This is a flow chart of the highway slope soil environmental quality monitoring system. DETAILED DESCRIPTION

[0017] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. Example

[0018] See also Figure 1 The present invention provides a technical solution: a highway slope soil environmental quality monitoring system, which includes the following application steps: S1. Enter the system to manage users. The specific steps are: query users, add new users, edit users, and modify user passwords; S2. Perform role management. The specific steps are: after logging into the system, add roles to the system, edit roles, edit menu permissions, and finally edit data permissions; S3, perform layer management, the specific steps are: first perform layer query, add new layers, edit layers, and delete unnecessary layers; S4. Manage administrative regions. The specific steps are: first query administrative regions, add new administrative regions, edit administrative regions, and delete specific administrative regions; S5. Perform road project management, the specific steps of which are: first perform road project query, query the newly added road project information, edit the road project, and delete the road project; S6. Perform collection point management, the specific steps of which are: first query the collection points, add new collection points, edit the collection points, and delete the specified collection points; S7, acquiring and managing the data of the collection points, the specific steps of which are: firstly numbering each collection point with a digital number, and then collecting relevant data for different collection points respectively, the collected relevant data including the geographical location data of the collection point, the surrounding environment data parameters of the collection point, the soil environment parameters of the collection point and the surrounding image data of the collection point, editing the collected data and deleting useless collected data; S8, importing the collected data into the three-dimensional visualization operating system, the specific steps are: first log in to the three-dimensional visualization operating system, import the collected data into the three-dimensional visualization operating system respectively, and perform layer control; S9. Use analysis tools to analyze data. Specifically, perform various types of analysis operations based on various basic data provided by the system and in combination with professional algorithm models. Manage different analysis tools in the form of a toolbox and support the extended functions of the analysis tools. The applied analysis tool is Python.

[0019] In this embodiment, the slope soil monitoring system can realize dynamic monitoring of the basic information of the sampling points and the soil composition of the sampling points, effectively standardize the workflow of each link of field operations and laboratory inspections, ensure the accurate, timely and efficient collection and aggregation of monitoring data, and provide data support for highway construction and environmental protection. Example

[0020] See also Figure 1 The present invention provides a technical solution: a highway slope soil environmental quality monitoring system, comprising the following steps: S1. Enter the system to manage users. The specific steps are: query users, add new users, edit users, and modify user passwords; S2. Perform role management. The specific steps are: after logging into the system, add roles to the system, edit roles, edit menu permissions, and finally edit data permissions; S3, perform layer management, the specific steps are: first perform layer query, add new layers, edit layers, and delete unnecessary layers; S4. Manage administrative regions. The specific steps are: first query administrative regions, add new administrative regions, edit administrative regions, and delete specific administrative regions; S5. Perform road project management, the specific steps of which are: first perform road project query, query the newly added road project information, edit the road project, and delete the road project; S6. Perform collection point management, the specific steps of which are: first query the collection points, add new collection points, edit the collection points, and delete the specified collection points; S7, acquiring and managing the data of the collection points, the specific steps of which are: firstly numbering each collection point with alphabetical numbers, and then collecting relevant data for different collection points respectively, the collected relevant data including the geographical location data of the collection point, the surrounding environment data parameters of the collection point, the soil environment parameters of the collection point and the surrounding image data of the collection point, editing the collected data and deleting useless collected data; S8, importing the collected data into the three-dimensional visualization operating system, the specific steps are: first log in to the three-dimensional visualization operating system, import the collected data into the three-dimensional visualization operating system respectively, and perform layer control; S9. Use analysis tools to analyze data. Specifically, perform various types of analysis operations based on various basic data provided by the system and in combination with professional algorithm models. Manage different analysis tools in the form of a toolbox and support the extended functions of the analysis tools. The analysis tool used is FineVis.

[0021] In this embodiment, the system also adopts a three-dimensional visualization operating system, which can import various collected data into the three-dimensional visualization system, enable various types of data to correspond and adapt to three-dimensional images and present them visually, and ensure that subsequent personnel can quickly retrieve and search for various data, thereby improving the application effect of the system. Example

[0022] See also Figure 1 The present invention provides a technical solution: a highway slope soil environmental quality monitoring system, comprising the following steps: S1. Enter the system to manage users. The specific steps are: query users, add new users, edit users, and modify user passwords; S2. Perform role management. The specific steps are: after logging into the system, add roles to the system, edit roles, edit menu permissions, and finally edit data permissions; S3, perform layer management, the specific steps are: first perform layer query, add new layers, edit layers, and delete unnecessary layers; S4. Manage administrative regions. The specific steps are: first query administrative regions, add new administrative regions, edit administrative regions, and delete specific administrative regions; S5. Perform road project management, the specific steps of which are: first perform road project query, query the newly added road project information, edit the road project, and delete the road project; S6. Perform collection point management, the specific steps of which are: first query the collection points, add new collection points, edit the collection points, and delete the specified collection points; S7, acquiring and managing the data of the collection points, the specific steps of which are: firstly numbering each collection point with a digital number, and then collecting relevant data for different collection points respectively, the collected relevant data including the geographical location data of the collection point, the surrounding environment data parameters of the collection point, the soil environment parameters of the collection point and the surrounding image data of the collection point, editing the collected data and deleting useless collected data; S8, importing the collected data into the three-dimensional visualization operating system, the specific steps are: first log in to the three-dimensional visualization operating system, import the collected data into the three-dimensional visualization operating system respectively, and perform layer control; S9. Use analysis tools to analyze data. Specifically, perform various types of analysis operations based on various basic data provided by the system and in combination with professional algorithm models. Manage different analysis tools in the form of a toolbox and support the extended functions of the analysis tools. The applied analysis tools are FineReport, FineVis and Python.

[0023] In this embodiment, the slope soil monitoring system can realize dynamic monitoring of the basic information of the sampling points and the soil composition of the sampling points, effectively standardize the work processes of each link of on-site operations and laboratory inspections, ensure the accurate, timely and efficient collection and aggregation of monitoring data, and provide data support for highway construction and environmental protection. The system also adopts a three-dimensional visualization operating system, which can import various collected data into the three-dimensional visualization system, and can make various types of data correspond and adapt to three-dimensional images and present them visually, which can ensure that subsequent personnel can quickly retrieve and search for various data, thereby improving the application effect of the system. Example

[0024] See also Figure 1 The present invention provides a technical solution: a highway slope soil environmental quality monitoring system, comprising the following steps: S1. Enter the system to manage users. The specific steps are: query users, add new users, edit users, and modify user passwords; S2. Perform role management. The specific steps are: after logging into the system, add roles to the system, edit roles, edit menu permissions, and finally edit data permissions; S3, perform layer management, the specific steps are: first perform layer query, add new layers, edit layers, and delete unnecessary layers; S4. Manage administrative regions. The specific steps are: first query administrative regions, add new administrative regions, edit administrative regions, and delete specific administrative regions; S5. Perform road project management, the specific steps of which are: first perform road project query, query the newly added road project information, edit the road project, and delete the road project; S6. Perform collection point management, the specific steps of which are: first query the collection points, add new collection points, edit the collection points, and delete the specified collection points; S7, acquiring and managing the data of the collection points, the specific steps of which are: firstly numbering each collection point with alphabetical numbers, and then collecting relevant data for different collection points respectively, the collected relevant data including the geographical location data of the collection point, the surrounding environment data parameters of the collection point, the soil environment parameters of the collection point and the surrounding image data of the collection point, editing the collected data and deleting useless collected data; S8, importing the collected data into the three-dimensional visualization operating system, the specific steps are: first log in to the three-dimensional visualization operating system, import the collected data into the three-dimensional visualization operating system respectively, and perform layer control; S9. Use analysis tools to analyze data. Specifically, perform various types of analysis operations based on various basic data provided by the system and in combination with professional algorithm models. Manage different analysis tools in the form of a toolbox and support the extended functions of the analysis tools. The analysis tool used is FineReport.

[0025] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. Highway slope soil environmental quality monitoring system, characterized by: The monitoring system includes the following application steps: S1. Enter the system to manage users; S2. Perform role management; S3, perform layer management; S4. Manage administrative areas; S5. Carry out road project management; S6. Manage collection points; S7, acquiring and managing data from collection points; S8, importing the collected data into a three-dimensional visualization operating system; S9. Use analytical tools to analyze the data.

2. The highway slope soil environmental quality monitoring system according to claim 1 is characterized in that: In S1, the system is entered to perform user management, and the specific steps are: performing user query, adding new users, editing users, and modifying user passwords.

3. The highway slope soil environmental quality monitoring system according to claim 1 is characterized in that: In S2, role management is performed, and the specific steps are: after logging into the system, adding roles to the system, editing roles, editing menu permissions, and finally editing data permissions.

4. The highway slope soil environmental quality monitoring system according to claim 1 is characterized in that: In the S3, layer management is performed, and the specific steps are: first perform layer query, add new layers, edit layers, and delete unnecessary layers.

5. The highway slope soil environmental quality monitoring system according to claim 1 is characterized in that: In S4, administrative regions are managed, and the specific steps are: first query the administrative regions, add new administrative regions, edit the administrative regions, and delete specific administrative regions.

6. The highway slope soil environmental quality monitoring system according to claim 1, characterized in that: In S5, road project management is performed, and the specific steps are: firstly, a road project query is performed, the newly added road project information is searched, the road project is edited, and the road project is deleted.

7. The highway slope soil environmental quality monitoring system according to claim 1 is characterized in that: In S6, collection point management is performed, and the specific steps are: first querying the collection points, adding new collection points, editing the collection points, and deleting the specified collection points.

8. The highway slope soil environmental quality monitoring system according to claim 1 is characterized in that: In the above S7, data acquisition and management of the collection points are performed, and the specific steps are as follows: first, each collection point is numbered, and the numbering adopts one of letter numbering and digital numbering, and then relevant data is collected for different collection points respectively. The collected relevant data includes geographical location data of the collection point, surrounding environment data parameters of the collection point, soil environment parameters of the collection point and surrounding image data of the collection point. The collected data is edited and useless collection data is deleted.

9. The highway slope soil environmental quality monitoring system according to claim 1, characterized in that: In the above S8, the collected data is imported into the three-dimensional visualization operating system, and the specific steps are: first log in to the three-dimensional visualization operating system, import the collected data into the three-dimensional visualization operating system respectively, and perform layer control.

10. The highway slope soil environmental quality monitoring system according to claim 1, characterized in that: In S9, analysis tools are used to analyze data. Specifically, various types of analysis operations are performed based on various basic data provided by the system and combined with professional algorithm models. Different analysis tools are managed in the form of a toolbox, and extended functions of the analysis tools are supported. The applied analysis tools are one or more of FineReport, FineVis and Python.

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